Hamed Rahimi Nohooji

Dr. Hamed Rahimi Nohooji

University of Luxembourg, Luxembourg, Luxembourg
orcid

Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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15 October 2013 in Advanced Robotics
Verified
Journal Article
Closed access
Hamed Rahimi NohoojiHamed Rahimi Nohooji
Hamed Rahimi Nohooji
MNM. Nazemizadeh
M. Nazemizadeh
This paper reviews literature on dynamic analysis and intelligent control techniques for flexible robot manipulators. First, a comparative dynamic analysis of flexible manipulators was presented and then control strategies were categorized and studied. Fuzzy logic, neural network, and genetic algorithm approaches were introduced and a range of contributions of such methods in flexible robot control were presented. A total of 115 papers were surveyed in this research, covering a sufficient depth in assessment of dynamic and control of flexible manipulator systems for the time span of 1970–2013.

1 May 2020 in Journal of the Franklin Institute
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Journal Article
Closed access
Hamed Rahimi NohoojiHamed Rahimi Nohooji
Hamed Rahimi Nohooji

1 July 2012 in Applied Mathematical Modelling
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Journal Article
Closed access
MKMoharam Habibnejad Korayem
Moharam Habibnejad Korayem
Hamed Rahimi NohoojiHamed Rahimi Nohooji
Hamed Rahimi Nohooji
ANA. Nikoobin
A. Nikoobin

1 November 2018 in Mechanical Systems and Signal Processing
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Journal Article
Closed access
Hamed Rahimi NohoojiHamed Rahimi Nohooji
Hamed Rahimi Nohooji
IHIan Howard
Ian Howard
LCLei Cui
Lei Cui

4 July 2018 in IEEE Access
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Journal Article
Open access
Hamed HabibiHamed Habibi
Hamed Habibi
Hamed Rahimi NohoojiHamed Rahimi Nohooji
Hamed Rahimi Nohooji
IHIan Howard
Ian Howard
Proportional integral derivative (PID) regulators are the most practical control schemes for industrial wind turbines. The key to PID design is the determination of the control parameter gains, which motivated our attempts to construct an adaptive PID control for wind turbines allowing auto-tuning of the gains without the need for trial and error processes. By equipping a novel PID-based fault-tolerant controller with a Nussbaum-type function, a robust adaptive and fault-tolerant control scheme is developed for wind turbines. Compared with available methods, the proposed controller has advantages, such as the ability for dealing with complete nonlinear dynamics of wind turbines, including model uncertainty, ability to ensure system stability by using an adaptive self-tuning gain algorithm, and robustness against wind speed variation. Furthermore, it has the ability to accommodate unexpected actuator faults and the accommodation of an unknown control direction. However, the salient feature of the proposed controller lies in its simple structure and inexpensive online computational demands while dealing with the nonlinear dynamics of wind turbines and unknown disturbances. It is shown that the proposed pitch angle controller remains continuous and smooth and all the closed-loop system signals are guaranteed to be uniformly ultimately bounded. Theoretical analysis and numerical simulations are presented to confirm the effectiveness of the proposed control strategy.

14 December 2023 in Applied Soft Computing
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Journal Article
Closed access
Hamed Rahimi NohoojiHamed Rahimi Nohooji
Hamed Rahimi Nohooji
Abolfazl ZarakiAbolfazl Zaraki
Abolfazl Zaraki
HVHolger Voos
Holger Voos